AIVIS: Next Generation Vigilant Information Seeking Artificial Intelligence-based Clinical Decision Support for Sepsis
AIVIS: Next Generation Vigilant Information Seeking Artificial Intelligence-based Clinical Decision Support for Sepsis
批准号:
10699457
负责人:
Christopher Josef
金额:
$25.77万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2023
资助国家:
美国
项目状态:
已结题
起止时间:
2023-07-07 至 2024-06-30
关键词:
Accident and Emergency departmentAddressAdherenceAdverse eventAffectAmericanAntibioticsArtificial IntelligenceAwarenessBehaviorCaliforniaCaregiversCaringCessation of lifeClassificationClinicalClinical DataClinical Decision Support SystemsClinical ResearchCollaborationsComputer softwareCritical CareDataDevelopmentDiagnosisEffectivenessElectronic Health RecordEnsureExpert SystemsFDA approvedFast Healthcare Interoperability ResourcesFeedbackFrequenciesGeneral WardGeographyGoalsHealthHealth Insurance Portability and Accountability ActHealthcare SystemsHospitalizationHospitalsHourInfectionInflammationIntensive Care UnitsInterventionIntuitionLaboratoriesLearningLength of StayLicensingLifeLiquid substanceMachine LearningMeasuresMedical DeviceModelingMorbidity - disease rateNamesNursing AssessmentOrgan failurePatient CarePatient-Focused OutcomesPatientsPatternPattern RecognitionPerformancePharmaceutical PreparationsPhaseProspective StudiesProtocols documentationResearchResearch PersonnelResuscitationRiskSafetySepsisShoulderSpecificitySurveysSyndromeSystemTechnologyTestingTimeUncertaintyUnited States Centers for Medicare and Medicaid ServicesUniversitiesValidationWeightWorkadvanced analyticsantimicrobialcare systemsclinical applicationclinical decision supportcommercializationcostdashboarddata accessdata integrationdesigndiagnostic accuracyevidence basehemodynamicshigh dimensionalityimprovedinnovationmortalitynew technologynext generationnonbinarynovelpatient populationpatient responsepatient safetypersonalized carepredictive modelingpredictive toolsprospectiveprototypequality assuranceresponsetooltreatment responseusabilityweb services
中文摘要
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英文摘要
Abstract
Sepsis, a heterogeneous syndrome characterized by whole-body inflammation caused by the body's
response to an infection, is the most expensive and deadly condition treated in hospitals, with over 270,000
cases of sepsis-related deaths in the U.S. alone. The cornerstones of optimal sepsis care are early
recognition accompanied by appropriate antimicrobial therapy, and use of evidence-based hemodynamic
therapies such as fluid resuscitation and vasoactive medications. While data-driven approaches based on
machine learning (ML) have shown promise in finding patterns in high-dimensional clinical data to forecast
sepsis among hospitalized patients, there are no clinically validated and FDA-approved clinical decision
support (CDS) system that can reliably identify patients at risk of developing sepsis. Moreover, existing
ML-based solutions are as good as the quality of the data presented to them, and the presence of outliers
and missingness can have deleterious effects on their performance. For instance, it has been suggested
that such systems are essentially looking over clinician's shoulders-using clinical behavior as the expression
of preexisting intuition and suspicion to generate a prediction. As such, there is a critical need for sepsis
prediction tools that can effectively use the routinely collected EHR data, assess prediction confidence, and
if needed, take necessary steps to gather additional information to reduce prediction uncertainty and
improve diagnostic accuracy without significant demand on the end-users.
This project aims to assess the clinical utility, safety, and efficacy of a novel uncertainty-aware sepsis
prediction system designed and developed in collaboration between UC San Diego Health and Healcisio
Inc., a UCSD start-up focused on scalable development and commercialization of advanced analytical
systems in critically care settings. The Healcisio system is explicitly designed to improve compliance with
the Centers for Medicaid and Medicare Services (CMS) care protocol for sepsis (the SEP1 bundle) and to
address the existing delays and variabilities in determining the sepsis onset time, so that life-saving
antibiotics and hemodynamic support can be delivered in a timely fashion. To maintain software quality
assurance a quality management system (QMS) will be developed to accompany a 510(k) FDA submission
package to demonstrate safety and effectiveness. To enhance hospital quality improvement (QI) teams’
ability to measure impact of earlier recognition and SEP-1 bundle compliance, a novel quality measure
(SEP1+) and a causal impact analysis tool is introduced. Ultimately, the novel technologies developed and
tested under this project will enhance our ability to use advanced analytics to predict adverse events,
assess patients’ response to therapy, and optimize and personalize care at the beside through a rapid-cycle
‘learning healthcare system’ framework.
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